可溶性硅防治橡胶树白根病的潜力

S. A. Hadi, L. Zakaria, S. N. Sidique, Murnita Mohmad Mahyudin, N. M. Nor
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引用次数: 2

摘要

马来西亚的橡胶种植者依靠丙环唑杀菌剂进行土壤淋水来控制由小孢子刚孔菌引起的白根病。真菌感染影响了环境生态系统,产生了杀菌剂抗性。近年来,硅(Si)已成为减少和延缓病原真菌入侵的替代材料。因此,本文研究了可溶性硅对橡胶树(橡胶树)小孢子虫的抑菌作用。采用中毒食品法测定了不同浓度(10、100、500、1000、1500、3000、5000和8000ppm)硅酸、偏硅酸钠、硅酸钠和硅酸钙对ayermolek菌株的体外剂量效应。结果表明,与其他类型的可溶性硅相比,在5000和8000 ppm浓度下,元硅酸钠对菌丝生长的抑制率为100%。然而,硅酸在最低浓度为500 ppm时抑制了50%以上的小孢子虫,这可以被认为是可溶性硅基团中最有效的抗真菌剂。此外,较高的pH值并不是影响小孢子霉抑制率的唯一因素。显微镜下观察了在可溶性硅培养基琼脂上生长的小孢子菇菌丝宽度与对照(不含硅)的变化。蘸棒抑制实验表明,较高浓度和较频繁的可溶性硅施用可有效抑制微孢子菌的生长。因此,本研究证明可溶性硅,特别是硅酸和偏硅酸钠作为抗真菌剂和杀菌剂在防治白根病方面具有良好的效果
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The potential of soluble silicon for managing white root disease in rubber (Hevea brasiliensis)
Rubber growers in Malaysia depend on soil drenching with propiconazole fungicide to control white root disease (WRD) caused by Rigidoporus microporus. The fungal infection affected the environmental ecosystem, giving rise to fungicide resistance. Recently, silicon (Si) has become an alternative to reduce and delay pathogenic fungal invasion. Therefore, the present study investigates the antifungal property of soluble silicon against R. microporus in rubber trees (Hevea brasiliensis). In vitro dose-response towards soluble silicon types, i.e., silicic acid, sodium meta-silicate, sodium silicate, and calcium silicate with different concentrations (10, 100, 500, 1000, 1500, 3000, 5000, and 8000 ppm) were determined on the Ayer Molek strain of R. microporus using the Poisoned Food Technique. Results showed that sodium meta-silicate inhibited mycelial growth (100%) at 5000 and 8000 ppm concentrations compared to other types of soluble silicon. However, silicic acid inhibited more than 50% R. microporus at a minimal concentration of 500 ppm, which could be considered the most effective antifungal from the soluble silicon group. Moreover, the higher pH values did not solely affect the inhibition rate of R. microporus. Microscopic observation showed the changes of R. microporus hyphae width grown on soluble silicon medium agar compared to the control (without Si). The Dipped Stick Inhibition Assay revealed that a higher concentration and more frequent soluble silicon application effectively inhibited R. microporus growth. Thus, this study proved that soluble silicon, especially silicic acid and sodium meta-silicate, showed promising results as antifungal agents and fungicidal in controlling white root disease
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